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. 2026 Fall 1;25(3):le2. doi: 10.1187/cbe.26-06-0151

From Accommodation to Anticipation: A Philippine Deaf-Ready STEM Teaching Framework

John Carlo B Quiatchon, 1,*
PMCID: PMC13532811  PMID: 42673538

To the Editor,

Braun et al. (2018) offer an important contribution to university science education by shifting attention from mere legal accommodation to the lived experience of deaf students in STEM. Their recommendations on classroom layout, communication access, teaching strategies, group work, research mentoring, and the involvement of deaf scientists remain highly relevant for institutions that seek to make science more welcoming. I write to extend their argument from a Philippine perspective and to propose a localized framework for science education: the Philippine Deaf-Ready STEM Teaching Framework.

This extension is needed because inclusion in higher education is often treated as a response to an individual request rather than as a design responsibility of the institution. In the Philippine context, legal and policy foundations already support a more proactive stance. Republic Act No. 11106, the Filipino Sign Language Act, recognizes Filipino Sign Language (FSL) as the national sign language of the Filipino Deaf and as the language of instruction of deaf education. Republic Act No. 7277 and subsequent national guidance likewise affirm that persons with disabilities should have access to quality education and should not be denied opportunities because of disability. These policies create a strong foundation, but the day-to-day translation of rights into STEM classrooms, laboratories, and field learning still requires practical pedagogical design.

I therefore propose that Philippine higher education institutions adopt a Philippine Deaf-Ready STEM Teaching Framework built on four mutually reinforcing commitments: FSL-forward communication access, visual-first STEM pedagogy, inclusive laboratory and group participation, and Deaf STEM mentoring pathways. The framework is intentionally described as deaf-ready rather than deaf-responsive. A deaf-ready course does not wait for exclusion to occur before support begins. It anticipates that deaf Filipino students may enter science programs and prepares the learning environment in advance.

First, FSL-forward communication access means planning for communication before the semester begins. STEM faculty can provide interpreters or captionists with syllabi, laboratory procedures, slide decks, and lists of technical terms in advance. Departments can build shared bilingual glossaries for recurring terms in biology, chemistry, physics, mathematics, and laboratory safety. Captioned instructional videos, written transcripts, accessible learning management system materials, and clear email or chat channels should become routine rather than exceptional. This does not mean imposing one communication mode on all deaf students. Rather, it respects individual communication preferences while recognizing FSL as a legally and culturally significant language in Philippine deaf education.

Second, visual-first STEM pedagogy should become a default teaching habit. Braun et al. (2018) note that deaf students may need to divide attention among the instructor, slides, interpreters, captions, and demonstrations. In science classes, this visual split attention becomes especially consequential when instructors move quickly through diagrams, equations, microscope images, laboratory apparatus, or field instructions. Philippine STEM instructors can reduce this barrier by using written protocols, labeled diagrams, stepwise demonstrations, structured pauses before discussion, well-lit rooms, clear sightlines, captioned videos, and accessible board work. These strategies benefit deaf students, but they also support hearing students who are multilingual, anxious, absent due to disruptions, or still developing scientific vocabulary.

Third, inclusive laboratory and group participation must be deliberately structured. Many Philippine science courses rely on group reports, laboratory experiments, field observations, and collaborative outputs. Without careful facilitation, deaf students may be physically present yet socially excluded, assigned passive tasks, or left out of informal peer explanations. Faculty can prevent this by assigning rotating roles, requiring written group plans, checking that all members understand procedures, and making safety instructions visible. Laboratory participation should be designed so that deaf students handle equipment, ask questions, analyze results, and present scientific explanations, not merely observe others doing the work. In this sense, inclusion is not only access to information; it is access to scientific agency.

Fourth, Deaf STEM mentoring pathways should connect students with people, not only services. Braun et al. (2018) emphasize the importance of mentoring and of including deaf scientists in work concerning deaf communities. Philippine universities can adapt this by creating partnerships among science departments, disability support offices, guidance offices, FSL interpreters, alumni, teacher education programs, and Deaf community organizations. Where deaf scientists or senior deaf students are available, their leadership should be valued. Where they are not yet available, hearing faculty can still become culturally responsive mentors by learning from Deaf communities, advocating for access, and helping students locate internships, research opportunities, and professional networks.

A futures-thinking lens strengthens this proposal. Futures thinking asks educators to consider not only the learners currently in the classroom but also the learners whom the system should be prepared to welcome. For Philippine STEM education, the future should not depend on whether an individual faculty member happens to be experienced with deaf learners. Instead, universities should develop course-level readiness audits, accessible laboratory checklists, faculty development on FSL and deaf culture, captioning practices for digital materials, and mentoring pathways that make deaf participation ordinary rather than exceptional. These are realistic first steps even for resource-constrained institutions because many begin with planning, coordination, and changes in teaching routines.

The value of Braun et al.’s essay is that it reminds science educators that deaf students do not simply need accommodations; they need belonging, communication access, high expectations, and opportunities to become scientists. A Philippine extension of this work should therefore move from accommodation to anticipation. The question for Philippine higher education should not be whether a university can respond when a deaf student enrolls in STEM. The stronger question is whether STEM programs are already designed so that deaf Filipino students can enter, participate, belong, lead, and contribute to the scientific future of the country.

ACKNOWLEDGMENTS

The author acknowledges the use of AI-assisted language drafting and editing during manuscript preparation. The author reviewed, revised, and approved the final manuscript and takes full responsibility for its content.

REFERENCES

  1. Braun DC, Clark MD, Marchut AE, Solomon CM, Majocha M, Davenport Z, ... Gormally C. (2018). Welcoming deaf students into STEM: Recommendations for university science education. CBE—Life Sciences Education, 17(3), es10. 10.1187/cbe.17-05-0081 [DOI] [PMC free article] [PubMed] [Google Scholar]
  2. Commission on Higher Education. (2000). CHED Memorandum Order No. 23, series of 2000: Quality education for learners with special needs. https://cms-cdn.e.gov.ph/CHED/pdf/2000-CMO-NO23.pdf

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